Wind　facilitates　pathogen/pest　dispersal　and　ecosystem　destabilization,　yet　existing　models　frequently　neglect　saturation　effects　under　extreme　wind　speeds.　This　paper　studies　an　amensalism　population　model　with　a　saturated　wind　effect,　aiming　to　explore　the　nonlinear　impact　of　wind　on　interspecific　interactions　in　ecosystems.　Wind　plays　a　crucial　role　in　ecosystems,　not　only　affecting　the　diffusion　and　distribution　of　populations　but　also　potentially　altering　population　dynamics　by　enhancing　or　weakening　interspecific　interactions.　However,　existing　research　often　overlooks　the　saturation　effect　of　wind　on　interspecific　interactions,　where　the　impact　of　wind　on　interspecific　interactions　tends　to　stabilize　when　wind　speed　is　too　high.　Based　on　the　classical　Lotka-Volterra　amensalism　model,　this　paper　introduces　a　wind　modulation　function　with　a　saturation　effect　to　describe　the　nonlinear　impact　of　wind　speed　on　the　amensalism　coefficient.　Through　theoretical　analysis　and　extensive　numerical　simulations,　we　investigate　the　dynamic　behavior　of　the　model　and　explore　the　impact　of　wind　speed　on　the　long-term　stability　of　the　victim　and　amensalist　populations.　The　results　show　that　the　saturation　effect　of　wind　on　amensalism　significantly　alters　the　population’s　equilibrium　state　and　stability　conditions.　Numerical　simulations　validate　the　theoretical　findings　and　reveal　the　sensitivity　of　population　dynamics　to　key　parameters,　including　wind　speed　w,　saturation　coefficient　κ,　and　windenhanced　coefficient　δ.　Specifically,　we　demonstrate　how　varying　these　parameters　influences　the　coexistence　or　extinction　of　the　victim　population,　with　critical　thresholds　identified　for　ecological　sustainability.　The　model　proposed　in　this　paper　provides　a　new　theoretical　framework　for　understanding　the　role　of　wind　in　ecosystems　and　offers　scientific　support　for　formulating　relevant　ecological　management　strategies.　©　2025,　International　Association　of　Engineers.　All　rights　reserved.